Abstract: Systems and/or methods that facilitate data management on a memory device are presented. A data management component can log and tag data creating data tags. The data tags can comprise static metadata, dynamic metadata or a combination thereof. The data management component can perform file management to allocate placement of data and data tags to the memory or to erase data from the memory. Allocation and erasure are based in part on the characteristics of the data tags, and can follow embedded rules, an intelligent component or a combination thereof. The data management component can provide a search activity that can utilize the characteristics of the data tags and an intelligent component. The data management component can thereby optimize the useful life, increase operating speed, improve accuracy and precision, improve efficiency of non-volatile (e.g., flash) memory and provide improved functionality to memory devices.

Abstract: Systems and/or methods that facilitate security of data are presented. A random number generation component generates random numbers based in part on electron activity in a select memory cell(s) to facilitate data security. Sensor components that are highly sensitive can be employed to sense activity of the select memory cell(s) and/or reference memory cell in a noise margin associated with respective memory cells in the memory component. The activity of the select memory cell is compared to the reference memory cell(s) to facilitate generating binary data. The binary data is provided to the random number generation component where the binary data is evaluated to determine whether a predetermined level of entropy exists in the binary data. The binary data, or a portion thereof, can be processed to generate random numbers that are utilized in cryptographic processes and/or as a physical signature to facilitate data security.

Abstract: A method of detecting a fault attack during a cryptographic operation using at least one look-up table including a plurality of sub-tables each having a same number of values of a fixed bit length, a fixed relation existing between values at same locations in each sub-table, the method including: performing a load operation to retrieve from the look-up table data values from a same location in each sub-table; verifying that the fixed relation exists between at least two of the data values; and generating an output signal based on the verification.

Abstract: Systems and methods that facilitate securing data associated with a memory from security breaches are presented. A memory component includes nonvolatile memory, and a secure memory component (e.g., volatile memory) used to store information such as secret information related to secret processes or functions (e.g., cryptographic functions). A security component detects security-related events, such as security breaches or completion of security processes or functions, associated with the memory component and in response to a security-related event, the security component can transmit a reset signal to the secure memory component to facilitate efficiently erasing or resetting desired storage locations in the secure memory component in parallel and in a single clock cycle to facilitate data security. A random number generator component can facilitate generating random numbers after a reset based on a change in scrambler keys used by a scrambler component to descramble data read from the reset storage locations.

Abstract: Systems, devices and/or methods that facilitate mutual authentication for processor and memory pairing are presented. A processor and a suitably equipped memory can be provided with a shared secret to facilitate mutual authentication. In addition, the memory can be configured to verify that the system operating instructions have not been subjected to unauthorized alterations. System integrity can be ensured according to the disclosed subject matter by mutual authentication of the processor and memory and verification of the authenticity of system operating instructions at or near each system power up. As a result, the disclosed subject matter can facilitate relatively low complexity assurance of system integrity as a replacement or supplement to conventional techniques.

Abstract: Systems and/or methods that facilitate security of data are presented. A random number generation component generates random numbers based in part on electron activity in a select memory cell(s) to facilitate data security. Sensor components that are highly sensitive can be employed to sense activity of the select memory cell(s) and/or reference memory cell in a noise margin associated with respective memory cells in the memory component. The activity of the select memory cell is compared to the reference memory cell(s) to facilitate generating binary data. The binary data is provided to the random number generation component where the binary data is evaluated to determine whether a predetermined level of entropy exists in the binary data. The binary data, or a portion thereof, can be processed to generate random numbers that are utilized in cryptographic processes and/or as a physical signature to facilitate data security.

Abstract: Systems and/or methods that facilitate data management on a memory device are presented. A data management component can log and tag data creating data tags. The data tags can comprise static metadata, dynamic metadata or a combination thereof. The data management component can perform file management to allocate placement of data and data tags to the memory or to erase data from the memory. Allocation and erasure are based in part on the characteristics of the data tags, and can follow embedded rules, an intelligent component or a combination thereof. The data management component can provide a search activity that can utilize the characteristics of the data tags and an intelligent component. The data management component can thereby optimize the useful life, increase operating speed, improve accuracy and precision, improve efficiency of non-volatile (e.g., flash) memory and provide improved functionality to memory devices.

Abstract: Systems and/or methods that facilitate secure electronic communication of data are presented. A cryptographic component facilitates data encryption, data decryption, and/or generation of digital signatures, associated with messages. The cryptographic component includes a randomized exponentiation component that facilitates decryption of data and/or generation of digital signatures by exponentiating exponents associated with messages. A random number is generated and utilized to randomize the value of a message. After an exponentiation is performed on the randomized message value, intermediate results can be analyzed to determine if there was error in the exponentiation. If there was no error in the exponentiation, a final value of the exponentiation is determined and provided as output as decrypted data or a digital signature; if there is error, an “error” output can be provided.

Abstract: Systems and/or methods that facilitate secure electronic communication of data are presented. A cryptographic component facilitates securing data associated with messages in accordance with a cryptographic protocol. The cryptographic component includes a randomized exponentiation component that facilitates decryption of data and generation of digital signatures by exponentiating exponents associated with messages. An exponent is divided into more than one subexponent at an exponent bit that corresponds to a random number. Exponentiation of the first subexponent can be performed based on a left-to-right-type of exponentiation algorithm, and exponentiation of the second subexponent can be performed based on a right-to-left square-and-multiply-type of exponentiation algorithm. The final value is based on the exponentiations of the subexponents and can be decrypted data or a digital signature, which can be provided as an output.

Abstract: An example embodiment of the present invention relates to a method of executing a logic operation while remaining safe from side channel attacks. Another example embodiment of the present invention relates to a logic circuit and device for executing a logic operation while remaining safe from side channel attacks.

Abstract: A method and apparatus for multiplication in a Galois field. The method of multiplication in a Galois field (GF) for preventing an information leakage attack by performing a transformation of masked data and masks in GF(2n) includes: receiving a plurality of first and second masked input data, a plurality of first and second input masks and an output mask; calculating a plurality of intermediate values by performing a multiplication of the plurality of masked input data and the plurality of input masks in GF(2n); and calculating a final masked output value by performing an XOR operation of the intermediate values and the output masks.

Abstract: An example embodiment of the present invention relates to a method of executing a logic operation while remaining safe from side channel attacks. Another example embodiment of the present invention relates to a logic circuit and device for executing a logic operation while remaining safe from side channel attacks.